My research combines Neurosciences and Biomedical Engineering approaches to modulate and decipher networks, neurophysiology, and strategies to understand autonomic function. The central nervous system integrates complex neuro-humoral autonomic functions that allow maintaining a balance between the sympathetic and parasympathetic centers. Million people suffer life-threatening autonomic disorders: hypertension, orthostatic disorders, and autonomic dystonias that also are linked to anxiety, depression, and suicide. Some autonomic disorders are underestimated, and by understanding their etiology we will design new therapies. My research incorporates state-of-the-art Neuroscience and novel technologies in neural interfaces to study these mechanisms.

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MISSION:

To advance on the study of new biological mechanisms as targets to solve clinical conditions and improve life quality, by the combination of Neuroscience and Bioengineering approaches. 

VISION:

To build a strong, inclusive, and multidisciplinary research team, characterized by the passion for discovery and progress in science, being scientific rigor our flag. 

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Main contributions to science:

1)  Defined a direct path from the vagus nerve to the terminal neurovascular plexus in the spleen, with relevance in the neuro-immune reflex and near-organ neuromodulation (Nature Com Biol, 2021). 

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2) The discovery of new cellular niches in the periventricular zone of the cerebellum with potential for neuro-humoral communication (Nature, ScRep 2017).

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3) Described the expression of inhibitory GABA-A (rho) receptors with differential pharmacology in the periventricular zone in the cerebellum. (PNAS 2014, and JNR 2014 ).

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4) Implemented the use of shape memory polymers and high-performance platinized graphene fibers for neural interfacing of autonomic nerves.

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4) Neuromodulation of DP nerve as a target for hypertension. 

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